リーディングビュー

サムスンはディスプレイの厚みを不均一にしてシワを隠す

🤖 AI Summary

サムスンの最新折りたたみスマートフォンGalaxy Z 8シリーズについて記事があります。このモデルで採用された新しい技術Flex Titが注目されています。Flex Titとは、ディスプレイの厚さを不均一にすることでシワを隠す技術です。

### キー・ポイント
1. **Galaxy Z 8シリーズ**:今月発売され、特に大きなZ Fold8が話題となっています。
2. **Flex Tit技術**:ディスプレイの厚さを不均一にすることで折りたたみ時のシワを軽減する新技術。

この技術により、 Galaxy Z 8シリーズはより滑らかな折りたたみ体験を提供することが期待されています。
今月発売のSamsung(サムスン)最新折りたたみスマホ、Galaxy Z 8シリーズ。今までにないサイズのZ Fold8が注目されています。が、折りたたみのディスプレイそのものを見ると、注目すべきは、新たに採用された新技術Flex Tit…

  •  

Big Tech Wants to Harvest Your Thoughts

✇Slashdot
著者: BeauHD

🤖 AI Summary

テクノロジー企業は脳活動を監視または解釈するための製品を開発しており、AppleやMeta、Snapなどもその一環となっています。これらのシステムが進化し続ける中、神経データが個人情報保護問題の新たな戦場になる可能性があると研究者たちは警戒しています。

20年以上にわたり、機能磁気共役断層撮影法(fMRI)を使用した研究により、脳の表層が詳細なマップやリストとして作られました。機械学習アルゴリズムのおかげで、現在は抑うつなどの感情から嫉妒や快楽的な感情まで様々な思考を辨識することが可能になりました。

最近では、言葉や文章までも解読できる神経工学技術が開発されています。2023年にパラレル症候群の患者であるアン・ジョンソンは脳に埋め込んだ電極により口頭で発話することができました。研究チームは彼女の表情も思惑通りに再現しました。

非侵襲的な脳スキャナが市場に登場し、職場や家庭にも普及しつつあります。これにより個人の思考を制御されるリスクが高まっています。
Wired reports that consumer neurotechnology is rapidly moving from the lab into workplaces and homes, with companies including Apple, Meta, and Snap developing products that can monitor or interpret brain activity. Researchers warn that as these systems improve, neural data could become the next major privacy battleground. Some neuroscientists are already calling for a series of core rights, coined "neurorights," that protect "mental privacy," "identity," and personal "agency." Here's an excerpt from the article: Over the past two decades, researchers using functional magnetic resonance imaging (fMRI), which tracks the iron in the hemoglobin supplying oxygen to neurons, have been building up increasingly detailed maps and inventories of the mammalian cortex. Thanks to huge advances in machine-learning artificial intelligence -- computer algorithms that are able to sort through enormous amounts of information and use statistical methods to make classifications and predictions -- fMRI scans can now be used to identify everything from depressive thoughts to the nuanced feelings of envy and schadenfreude. Other algorithms have been able to accurately piece together reconstructions of movie clips watched by subjects, just by analyzing their brain scans; or have detected, in probing the brain activity of swing voters in the US presidential election, responding to photographs and videos of presidential candidates, which candidates provoked anxiety or even disgust, and which elicited positive responses or feelings of empathy. In just the last few years, neuroscience researchers have progressed from decoding images and emotions as they play across the cortex to sounds, words, phrases, and even language. In 2023, in a remarkable demonstration of this emerging technology, a woman called Ann Johnson, who had been paralyzed for 18 years by a brain-stem stroke, was able to speak again through the insertion of a grid of 253 electrodes onto the surface of her brain, which translated her neuronal signals into sentences, in real time, at a rate of 78 words per minute (just about half the speed of standard conversation). The research team at the University of California, led by neurosurgeon Edward Chang, had combined this brain-computer interface with an animated avatar of Johnson's head, which spoke in her own voice, as reconstructed from a recording of a 15-minute toast she had given at her wedding. Just as the avatar's mouth spoke Johnson's words as she thought them, so its expressions were similarly influenced by the nuances of her brain activity, which turned her thoughts about facial gestures into displays of emotion -- from smiles to pursed lips and frowns. [...] The more invasive the recording equipment, the richer and more detailed the data. Surgical interventions are at the vanguard of neuroscience and remain very rare -- fewer than 100 people on the planet have brain-computer interfaces like Johnson's embedded beneath their skulls. Yet almost inevitably, a concerted trickle-down effect is occurring. In the summer of 2023, a team at the University of Texas demonstrated that they could use fMRI to translate brain scans into words and sentences, after subjects listened to 16 hours of the storytelling podcasts The Moth Radio Hour and The New York Times' Modern Love to train an AI model. When the subjects then listened to new podcasts, the algorithm was able to convert the gist of what they heard, as it manifested in their brains, into words, phrases, and sentences that roughly captured the stories. As the team's lead computational neuroscientist, Alexander Huth, put it in an interview with Science, "Our thought when we actually had this working was, 'Oh my God, this is kind of terrifying.'" Now noninvasive, wearable brain scanners are beginning to proliferate beyond the lab, making their way into our workplaces and, through the vast global consumer market, into our homes too.

Read more of this story at Slashdot.

  •  
❌